Sustainable 3D printed electrothermal deicing systems using recycled carbon fiber reinforced polymer-based inks A. Cortés, D. Martinez-Diaz, E. Espeute, S.G. Prolongo, A. Jiménez-Suárez Journal of Materials Research and Technology, 2026 The need for high-added value and sustainable solutions that make use of carbon fiber reinforced prepreg scrap is an urgent need for the composites sector in its transition to a circular economy approach, as most of current alternatives are just as additive in thermoplastics or concrete based matrices. The present study optimizes the electrical and self-heating properties of recycled carbon fiber reinforced composites manufactured using Direct Ink Write 3D printing technology. Mechanical recycling parameters have a significant impact on the morphology of recycled carbon fibers (RCF) and, consequently, on the final properties of the composites. More specifically, shorter RCFs and higher contents enhance ink homogeneity and repeatability of the 3D printing process. Electrical conductivity increases with RCF content, with 20 %RCF-2mm ink exhibiting the highest value, 1.32 ± 0.5 S/m. Moreover, the electrical conductivity was higher when using longer fibers and the same RCF content due to their higher aspect ratio. Results of Joule heating tests, in total agreement with the electrical conductivity ones, demonstrated the capability of reaching an average temperature of 50 °C by applying just 65 V for the aforementioned condition, as well as an outstanding homogeneity in Joule heating. Proof-of-concept deicing experiment confirmed a rapid and effective deicing using 3D printed circuits, being able to melt a 2.5 mm thick ice layer in 7.5 min. Therefore, a sustainable solution for diverse wind energy or aerospace industry applications is successfully developed from prepreg scrap recycling. • Advanced and sustainable reinforced ink was produced by direct write 3D-printing • Optimization of CFRP recycling allows obtaining high-added-value materials • Innovative deicing based on a reinforced ink with recycled carbon fiber obtained • High electrical conductivity over 1 S/m was obtained by using a recycled product
Promoting Green Concepts and Environmental Awareness by a Recycling Expanded Polystyrene with Acetone Experiment and an Interactive Digital Tool Miguel Á. Hernández, Sonsoles Leguey, Alejandro Cortes, Marta Muñoz Journal of Chemical Education, 2026 Recycling plastic waste is a major environmental challenge that requires educational initiatives to raise the awareness of and promote sustainable practices. This work demonstrates the educational effectiveness of a hands-on recycling experiment, supported by the interactive digital tool Wooclap, in promoting environmental awareness and introducing green concepts. To achieve this, a hands-on experiment recycling expanded polystyrene (EPS) with acetone was conducted for three age groups: (i) young children, (ii) high school students, and (iii) undergraduate students. Initial and final tests on the Wooclap platform measured the prior knowledge and learning outcomes of the participants. Additionally, participants completed a satisfaction survey to evaluate their satisfaction with the workshop and the knowledge gained. All groups recognized plastic accumulation as a serious environmental issue, but many preuniversity students were unfamiliar with basic green concepts, especially regarding specific types of plastic and their recycling process. These observations highlight the need for educational initiatives like that presented in this work. All groups showed a strong grasp of the concepts related to EPS recycling after the workshop, highlighting the effectiveness of this educational experience. Additionally, participants found the experience enjoyable, which had a positive effect on their learning.
Nanocellulose as a Bio-Based Reinforcement in Vitrimer Nanocomposites: Manufacturing and Mechanical Characterisation M. Gljušćić, A. Cortés, A. Jiménez Suárez, S.G. Prolongo, C. Santiuste Journal of Natural Fibers, 2026 To address issues of plastic pollution and nanoparticle toxicity, this study focuses on the synthesis and characterization of recyclable nanocomposites reinforced with nontoxic bio-based nanoparticles. Bridging the gap between thermoplastic reprocessability and thermoset durability, a novel subclass of covalent adaptable networks (CANs) with associative cross-link exchange was adopted as the matrix system, while mechanically derived cellulose nanofibrils were used as reinforcement. Four nanocomposite variants with cellulose nanofibril contents of 0.25 wt%, 0.5 wt%, 1.0 wt%, and 1.2 wt%, respectively, were prepared by ultrasonic dispersion of nanoparticles into preheated epoxy monomer and imine hardener, followed by curing. Mechanical behavior was evaluated via tensile and three-point bending tests, while the contribution of nanoparticles in failure mechanisms was confirmed in fracture surface analysis. The mechanical characterization revealed that incorporating 0.25 wt% cellulose nanoparticles increased the maximum tensile strength by 21% under both tension and flexural loading, with corresponding modulus enhancements of 4% and 22%, respectively. Experimental evaluations confirmed reshaping and shape recovery capabilities, reprocessing improved mechanical properties of unreinforced material (failure strain +38%, flexural strength +14%, modulus +12.2%), while reinforced variants underperformed their pristine counterparts due to larger particles. These findings provide valuable insight for manufacturing sustainable and reprocessable polymer nanocomposites.
Vat photopolymerization of bio-derived conductive composites for smart devices with Joule heating capabilities Alberto Cellai, Lorenzo Pezzana, Kimihiro Matsukawa, Alberto Jiménez-Suárez, Marco Sangermano, Alejandro Cortés Progress in Additive Manufacturing, 2026 This study explores the use of a bio-based photopolymerizable monomer, acrylate polyglycerol, for fabricating smart 3D-printed objects Vat Photopolymerization (VPP) technology. Derived from vegetable oil saponification or microbial fermentation, this monomer serves as a photocurable building block after acrylate functionalization. Conductive fillers, including silver, copper, nickel powders, and mechanically recycled carbon fibers (RCF), were incorporated to enhance electrical conductivity and Joule heating capabilities. These formulations combine the sustainability of bio-derived materials with advanced functionalities for smart applications. Characterization techniques such as FT-IR, photo-DSC, rheology, DMTA, electrical conductivity analysis, and thermal imaging revealed that while increasing filler content reduces polymerization rate and increases viscosity, it significantly improves electrical conductivity and, in some cases, thermal-mechanical properties. Notably, Ag- and RCF-filled formulations enabled effective Joule heating, achieving uniform heat distribution. As a proof-of-concept, a smart wearable ring was 3D-printed using a 50%wt Ag formulation, reaching therapeutic temperatures (60 °C) with minimal energy input (1–3 V). The ability to manufacture geometrically complex, energy-efficient devices through 3D printing, combined with the sustainability of bio-based resins, highlights the potential of these materials for medical, electronic, and smart applications. This research bridges sustainability and innovation in additive manufacturing, paving the way for high-performance, eco-friendly solutions.
Advanced thermoforming techniques of cured carbon fiber reinforced epoxy polymers based on a reshapable vitrimeric matrix Javier Gómez Sánchez, Daniel Quintana Brito, Alejandro Cortés Fernández, Xoan Xosé Fernández Sánchez-Romate, Margarita González Prolongo, Silvia González Prolongo, Alberto Jiménez Suárez Composites Part A Applied Science and Manufacturing, 2026 • Thermoset composites with thermoforming capabilitities have been developed. • Cured flat laminates were reshaped into geometries with different curvatures. • Thermoforming efficiencies were above 80 % under optimal conditions. • The developed composites also demonstrated shape memory and welding capabilities. • A T-shaped stringer was obtained by welding two thermoformed L-shaped laminates. A carbon fiber-reinforced polymer (CFRP) with thermoforming capabilities has been developed by introducing an epoxy resin with dynamic disulfide bonds as a matrix. The influence of critical parameters on the efficiency of thermoforming processes, including the number of plies, dynamic hardener content, and the curvature of geometry, have been deeply studied. Flat cured composites were placed inside curved molds to replicate their form. The thermoforming efficiency showed a high dependency on the amine-to-epoxy ratio, increasing the shape fixity rate (R f ) from 40 to 50 % to 70–80 % with the excess of pending amines in the matrix. Moreover, an increased number of plies resulted in a reduction in thermoforming efficiency due to the accumulation of shearing stress, which ultimately led to the formation of delamination defects. Indeed, the welding of two different specimens was achieved while simultaneously being thermoformed with the most severe curvature, exhibiting an almost 100 % thermoforming efficiency. In addition, the material showed superior shape memory properties, recovering more than 70 % of its original flat shape in all tested conditions. Finally, a proof-of-concept was developed by obtaining a T-shape stringer from flat laminates through thermoforming and welding to prove the potential use of the developed materials in industry.
Polyphenols-derived epoxy vitrimers for smart applications: Electrical conductivity, Joule heating, and strain sensing Rossella Sesia, Javier Gomez Sanchez, Ignacio Collado, Alejandro Cortes, Alberto Jimenez-Suarez, Minna Hakkarainen, Silvia Spriano, Sara Ferraris, Marco Sangermano Polymer, 2025 Epoxy resins play a crucial role in several industrial applications. However, their irreversible crosslinked structure and need for precursors from fossil-fuels provide sustainability issues. This study explores the synthesis of bio-based epoxy vitrimers using glycidylated derivatives of gallic acid (GGA) and tannic acid (GTA) as eco-friendly alternatives. ATR-FTIR and NMR spectroscopies confirmed the successful glycidylation reaction. The thermal curing of epoxy monomers with Vitrimax imine T130 was performed after thoughtful DSC and TGA analyses, achieving reprocessable and thus recyclable materials. Indeed, thanks to the covalent adaptable networks (CANs) based on imine bonds the reprocessing of polyphenols-based composites was possible by hot-pressing their powders after a grinding step. Carbon nanotubes (CNT) were introduced into natural polyphenol-based materials at 1 and 2 wt% contents to improve electrical conductivity and piezoresistive properties. Thermomechanical performance of the bio-based composites was assessed as a function of CNT content, measuring a glass transition temperature of approximately 60 °C. Electrical conductivity measurements revealed an outstanding capability of polyphenols-based composites to conduct electricity with a percolation threshold at 1 wt% of CNT, reaching a maximum of 0.1 S/m and 0.4 S/m for GGA and GTA, respectively. Moreover, unlike systems with 1 wt%, the composites with 2 wt% of CNT exhibited significant Joule heating capabilities reaching 60 °C by just applying about 50 V. Finally, strain-sensing tests demonstrated the electromechanical responsiveness of the composites, showing outstanding gauge factors of 89 and 17 with the GGA_1CNT and GTA_1CNT, respectively, highlighting their potential in structural health monitoring (SHM) applications. This work underscores the feasibility of electrically conductive natural polyphenol-based composites as sustainable, recyclable, and multifunctional alternatives to conventional epoxy systems. • Epoxy resins from gallic and tannic acids offer a green matrix for composites. • Imine-based CANs enable materials reprocessing via hot-pressing powders. • CNT addition to bio-based epoxies leads to a significant electrical conductivity. • 2 wt% CNT enable Joule heating up to T g of the composites with just 50 V applied. • High gauge factors show promise for structural health monitoring sensors.
Combining de-icing and self-healing for wind blades through an innovative multilayer coating approach A. Cortés, A. Esperanza, J. Gómez‐Sánchez, X. F. Sanchez‐Romate, S. G. Prolongo, A. Jiménez‐Suárez Polymer Composites, 2025 Ice accretion is a huge concern for many wind blades installed in colder regions. The approach of active de‐icing systems based on coatings has been recently quite explored. Nevertheless, the concern about an external electrically conductive layer leads to the need to develop multilayer insulating/conductive coatings. For this purpose, a novel multilayer coating consisting of a 3D printed carbon nanotube (CNT) and graphene nanoplatelet (GNP) reinforced nanocomposite is proposed, covered by a top coating consisting of a PCL‐based epoxy blend. Here, the CNT/GNP layer presents outstanding Joule heating capabilities due to the enhanced electrical conductivity, which increases significantly when increasing the filler content without drastically affecting the quality of the printed ribbons. More specifically, the temperature reached was about 140°C when applying 30 V for the 4 wt.%CNT and 6 wt.%GNP reinforced specimens. In this regard, this resistive heating can promote the thermal stimulus needed to activate de‐icing and self‐healing mechanisms on the epoxy/PCL top layer. Healing efficiencies obtained by the Joule effect reached up to 90% efficiency in comparison to convective heating, which showed a 68%, explained by the improved heating transfer from the CNT/GNP layer when applying the resistive heating. Finally, a proof‐of‐concept test as a de‐icing system showed a complete ice removal within 2.9 min when applying the resistive heating in the intermediate CNT/GNP layer, proving the multifunctionality of the proposed multilayer coating for self‐heating and self‐healing applications.Highlights A multilayer coating with self‐healing and de‐icing capabilities was successfully developed. Great combination of 3 min de‐icing time and 90% self‐healing efficiency. Novel inner 3D printed layer allows higher CNT/GNP contents than traditional ones. A multilayer approach with optimized nanoreinforced area required.
Novel sustainable, smart, and multifunctional 4D-printed nanocomposites with reprocessing and shape memory capabilities A Cortés, A González-Jiménez, J Gutiérrez, A Jiménez-Suárez, S G Prolongo Smart Materials and Structures, 2025 The present paper explores the development of novel reprocessable nanocomposites with enhanced shape memory (SM) capability by Digital Light Processing 3D printing technology. A Covalent Adaptable Network was developed through a solvent-free strategy, based on polyurethane containing Diels Alder bonds, reinforced with carbon nanotubes (CNTs). The CNT addition allows for obtaining electrically conductive nanocomposites (up to 1.2 ± 0.7·10−1 S m−1). This enables Joule heating capability (average temperature over 100 °C by applying 100 V to the 0.3 wt.%CNT reinforced specimens), which was used as a heating method to trigger the SM cycle. First, the CNT content and thermal treatment were optimized to enhance the SM capabilities in a conventional oven (shape fixity ratio around 100%). Then, the SM capabilities triggered by Joule heating were characterized. Here, the optimized nanocomposites showed excellent shape fixity and recovery ratios (both above 95%). This heating method was proven to be low energy-consuming (approximately 1 W compared to around 750 W for a conventional oven), while also allowing for a fast, remote, and selective activation, which was demonstrated with a hand-like proof-of-concept by selectively recovering the permanent shape of each finger individually. On the other hand, the dynamic covalent bonds enable reprocessability. Here, the 3D-printed specimens were turned into powder and reprocessed using a powder processing tool to manufacture samples with a different geometry which were still electrically conductive, given the DA adduct formations. Results prove the multifunctional and smart capabilities of the developed nanocomposites, which make them suitable for applications such as soft robotics or actuators with an extended useful life, thus promoting sustainability.
Sustainable Multi-Cycle Physical Recycling of Expanded Polystyrene Waste for Direct Ink Write 3D Printing and Casting: Analysis of Mechanical Properties Rubén García-Sobrino, Alejandro Cortés, José Ignacio Sevilla-García, Marta Muñoz Polymers, 2024 This work investigates the sustainable reuse of expanded polystyrene (EPS) waste through a multi-cycle physical recycling process involving dissolution in acetone and subsequent manufacturing via Direct Ink Write (DIW) 3D printing and casting. Morphology and mechanical properties were evaluated as a function of the manufacturing technique and number of dissolution cycles. Morphological analysis revealed that casted specimens better replicated the target geometry, while voids in 3D-printed specimens aligned with the printing direction due to rapid solvent evaporation. These voids contributed to slightly reduced stiffness in 3D-printed specimens compared to casted ones, particularly for transverse printing orientation. The defoaming process during dissolution significantly increased the density of the material, as well as removed low molecular weight additives like plasticizers, leading to a notable enhancement in stiffness. Successive dissolution cycles led to increased removal of plasticizers, enhancing stiffness up to 52 times (cast), 42 times (longitudinally printed), and 35 times (transversely printed) relative to as-received EPS waste. The glass transition temperature remained unchanged, confirming the preservation of polymer integrity. This work highlights the potential of EPS inks for sustainable, multi-cycle recycling, combining enhanced mechanical performance with the flexibility of 3D printing for complex, cost-effective designs, aligning with circular economy principles.
Sustainable Electrically Conductive Bio-Based Composites via Radical-Induced Cationic Frontal Photopolymerization Dumitru Moraru, Alejandro Cortés, David Martinez-Diaz, Silvia G. Prolongo, Alberto Jiménez-Suárez, Marco Sangermano Polymers, 2024 Diglycidylether of vanillyl alcohol (DGEVA), in combination with mechanically recycled carbon fibers (RCFs), was used to make, via Radical-Induced Cationic Frontal Photopolymerization (RICFP), fully sustainable and bio-based conductive composites with good electrical conductivity and consequent Joule effect proprieties. Three different fiber lengths, using three different sieve sizes during the mechanical recycling process (0.2, 0.5, and 2.0 mm), were used in five different amounts (ranging from 1 to 25 phr). The samples were first characterized by dynamic mechanical thermal analysis (DMTA), followed byelectrical conductivity and Joule heating tests. More specifically, the mechanical properties of the composites increased when increasing fiber content. Furthermore, the composites obtained with the longest fibers showed the highest electrical conductivity, reaching a maximum of 11 S/m, due to their higher aspect ratio. In this context, the temperature reached by Joule effect was directly related to the electrical conductivity, and was able to reach an average and maximum temperatures of 80 °C and 120 °C, respectively, just by applying 6 V.
Nanocellulose as a Bio-Based Reinforcement in Vitrimer Nanocomposites: Manufacturing and Mechanical Characterisation M Gljušćić, A Cortés, A Jiménez Suárez, SG Prolongo, C Santiuste Journal of Natural Fibers 23 (1), 2658268 , 2026 2026
Sustainable 3D printed electrothermal deicing systems using recycled carbon fiber reinforced polymer-based inks A Cortés, D Martinez-Diaz, E Espeute, SG Prolongo, A Jiménez-Suárez Journal of Materials Research and Technology , 2026 2026
Vat photopolymerization of bio-derived conductive composites for smart devices with Joule heating capabilities A Cellai, L Pezzana, K Matsukawa, A Jiménez-Suárez, M Sangermano, ... Progress in Additive Manufacturing, 1-20 , 2026 2026
Promoting Green Concepts and Environmental Awareness by a Recycling Expanded Polystyrene with Acetone Experiment and an Interactive Digital Tool MÁ Hernández, S Leguey, A Cortes, M Muñoz Journal of chemical education 103 (3), 1261-1269 , 2026 2026
Ultrasonics for accelerating the implementation of next-generation self-healing polymers A Jimenez Suarez, G Seisdedos, V Bracho Perez, E Espeute, Z Esmaeili, ... The Journal of the Acoustical Society of America 158 (4_Supplement), A63-A63 , 2025 2025
Polyphenols-derived epoxy vitrimers for smart applications: Electrical conductivity, Joule heating, and strain sensing R Sesia, JG Sanchez, I Collado, A Cortes, A Jimenez-Suarez, ... Polymer, 129044 , 2025 2025
Combining de‐icing and self‐healing for wind blades through an innovative multilayer coating approach A Cortés, A Esperanza, J Gómez‐Sánchez, XF Sanchez‐Romate, ... Polymer Composites 46 (5), 4469-4481 , 2025 2025 Citations: 5
Novel sustainable, smart, and multifunctional 4D-printed nanocomposites with reprocessing and shape memory capabilities A Cortés, A González-Jiménez, J Gutiérrez, A Jiménez-Suárez, ... Smart Materials and Structures 34 (2), 025041 , 2025 2025 Citations: 3
La orientación a colectivos desde las administraciones regionales y locales ongs y fundaciones BM Liévano, S Lucas, A Cortés, AA Álvarez Libro blanco de la orientación a lo largo de la vida, 69-73 , 2025 2025
THE USE OF BOARD GAMES FOR TRANSVERSAL LEARNING IN A MATERIALS ENGINEERING DEGREE XXF Sánchez-Romate, A Cortés, J Bedmar, I Izaguirre, N Abu-Warda, ... EDULEARN25 Proceedings, 6438-6438 , 2025 2025
Sustainable multi-cycle physical recycling of expanded polystyrene waste for direct ink write 3D printing and casting: analysis of mechanical properties R García-Sobrino, A Cortés, JI Sevilla-García, M Muñoz Polymers 16 (24), 3609 , 2024 2024 Citations: 7
Sustainable Electrically Conductive Bio-Based Composites via Radical-Induced Cationic Frontal Photopolymerization D Moraru, A Cortés, D Martinez-Diaz, SG Prolongo, A Jiménez-Suárez, ... polymers 16 (15), 2159 , 2024 2024 Citations: 7
Enhancing efficiency and sustainability of digital light processing 3D-Printing by novel two-stage processing of carbon nanotube reinforced nanocomposites A Cortés, M Bañón-Veracruz, A Jiménez-Suárez, M Campo, MG Prolongo, ... Journal of Materials Research and Technology 29, 3237-3248 , 2024 2024 Citations: 9
Recyclable multifunctional nanocomposites based on carbon nanotube reinforced vitrimers with shape memory and Joule heating capabilities A Cortés, XF Sánchez-Romate, D Martinez-Diaz, SG Prolongo, ... Polymers 16 (3), 388 , 2024 2024 Citations: 12
APPROACHING SOLUTIONS FOR INCLUSIVITY THROUGH THE USE OF 3D-PRINTING IN THE END-OF-DEGREE PROJECT: A SERVICE-LEARNING METHODOLOGY AJ Suarez, A Cortés, S García-Rodriguez, AR Lorente INTED2024 Proceedings, 7993-7993 , 2024 2024
Novel and accessible physical recycling for expanded polystyrene waste with the use of acetone as a solvent and additive manufacturing (direct ink-write 3D printing) R García-Sobrino, A Cortés, R Calderón-Villajos, JG Díaz, M Muñoz Polymers 15 (19), 3888 , 2023 2023 Citations: 15
Relación entre inteligencia emocional y desempeño escolar en la educación superior M Hernández, A Cortés, E Ramírez Congreso Internacional de Educación Evaluación 2022 , 2023 2023 Citations: 1
Novel and Accessible Physical Recycling for Expanded Polystyrene Waste with the Use of Acetone as a Solvent and Additive Manufacturing (Direct Ink-Write 3D Printing) R García, A Cortés, R Calderón, J Díaz, M Muñoz Hernández MDPI , 2023 2023 Citations: 1
The use of a service-learning methodology for end-of-degree projects in industrial engineering-related degrees A Jiménez-Suárez, A Cortés, S Cifuentes, S García-Rodríguez EDULEARN23 Proceedings, 5634-5641 , 2023 2023 Citations: 2
Electrothermally activated CNT/GNP-doped anti-icing and de-icing systems: a comparison study of 3D printed circuits versus coatings A Cortés, A Jiménez-Suárez, A Ureña, SG Prolongo, M Campo Applied Sciences 12 (17), 8875 , 2022 2022 Citations: 4
MOST CITED SCHOLAR PUBLICATIONS
DLP 4D‐printing of remotely, modularly, and selectively controllable shape memory polymer nanocomposites embedding carbon nanotubes A Cortés, A Cosola, M Sangermano, M Campo, S González Prolongo, ... Advanced Functional Materials 31 (50), 2106774 , 2021 2021 Citations: 148
Mechanical and strain-sensing capabilities of carbon nanotube reinforced composites by digital light processing 3D printing technology A Cortés, XF Sánchez-Romate, A Jiménez-Suárez, M Campo, A Ureña, ... Polymers 12 (4), 975 , 2020 2020 Citations: 81
Melting of phase D in the lower mantle and implications for recycling and storage of H2O in the deep mantle S Ghosh, MW Schmidt Geochimica et Cosmochimica Acta 145, 72-88 , 2014 2014 Citations: 61
Registration of five synthetic hexaploid wheat and seven bread wheat lines resistant to wheat spot blotch A Mujeeb-Kazi, S Cano, V Rosas, A Cortes, R Delgado Crop science 41 (5), 1653-1653 , 2001 2001 Citations: 52
Hardener isomerism and content of dynamic disulfide bond effect on chemical recycling of epoxy networks D Martinez-Diaz, A Cortés, A Jiménez-Suárez, SG Prolongo ACS Applied Polymer Materials 4 (7), 5068-5076 , 2022 2022 Citations: 50
3D printed epoxy-CNTs/GNPs conductive inks with application in anti-icing and de-icing systems A Cortés, A Jiménez-Suárez, M Campo, A Ureña, SG Prolongo European Polymer Journal 141, 110090 , 2020 2020 Citations: 36
3D printed anti-icing and de-icing system based on CNT/GNP doped epoxy composites with self-curing and structural health monitoring capabilities A Cortés, XF Sánchez Romate, A Jiménez-Suárez, M Campo, ... Smart Materials and Structures 30 (2), 025016 , 2021 2021 Citations: 29
4D-printed resins and nanocomposites thermally stimulated by conventional heating and IR radiation A Cortés, JL Aguilar, A Cosola, XX Fernández Sanchez-Romate, ... ACS Applied Polymer Materials 3 (10), 5207-5215 , 2021 2021 Citations: 18
Complex geometry strain sensors based on 3d printed nanocomposites: Spring, three-column device and footstep-sensing platform A Cortés, XF Sánchez-Romate, A Jiménez-Suárez, M Campo, A Esmaeili, ... Nanomaterials 11 (5), 1106 , 2021 2021 Citations: 17
Multifunctional coatings based on GNP/epoxy systems: Strain sensing mechanisms and Joule's heating capabilities for de-icing applications XF Sánchez-Romate, R Gutierrez, A Cortes, A Jiménez-Suárez, ... Progress in Organic Coatings 167, 106829 , 2022 2022 Citations: 16
Novel and accessible physical recycling for expanded polystyrene waste with the use of acetone as a solvent and additive manufacturing (direct ink-write 3D printing) R García-Sobrino, A Cortés, R Calderón-Villajos, JG Díaz, M Muñoz Polymers 15 (19), 3888 , 2023 2023 Citations: 15
Sequential and selective shape memory by remote electrical control A Cortés, N Pérez-Chao, A Jiménez-Suárez, M Campo, SG Prolongo European Polymer Journal 164, 110888 , 2022 2022 Citations: 14
Recyclable multifunctional nanocomposites based on carbon nanotube reinforced vitrimers with shape memory and Joule heating capabilities A Cortés, XF Sánchez-Romate, D Martinez-Diaz, SG Prolongo, ... Polymers 16 (3), 388 , 2024 2024 Citations: 12
Enhancing efficiency and sustainability of digital light processing 3D-Printing by novel two-stage processing of carbon nanotube reinforced nanocomposites A Cortés, M Bañón-Veracruz, A Jiménez-Suárez, M Campo, MG Prolongo, ... Journal of Materials Research and Technology 29, 3237-3248 , 2024 2024 Citations: 9
Electrothermally triggered selective shape memory capabilities of CNT doped nanocomposites by Digital Light Processing A Cortés, XFS Romate, JL Aguilar, A Jiménez-Suárez, M Campo, ... Composites Science and Technology 218, 109185 , 2022 2022 Citations: 8
Genetic diversity for improving scab resistance in wheat A Mujeeb-Kazi, A Cortes, V Rosas, S Cano, J Sanchez, L Juarez, ... Proceedings Warren E. Kronstad Symposium, 126-129 , 2001 2001 Citations: 8
Sustainable multi-cycle physical recycling of expanded polystyrene waste for direct ink write 3D printing and casting: analysis of mechanical properties R García-Sobrino, A Cortés, JI Sevilla-García, M Muñoz Polymers 16 (24), 3609 , 2024 2024 Citations: 7
Sustainable Electrically Conductive Bio-Based Composites via Radical-Induced Cationic Frontal Photopolymerization D Moraru, A Cortés, D Martinez-Diaz, SG Prolongo, A Jiménez-Suárez, ... polymers 16 (15), 2159 , 2024 2024 Citations: 7
Assessment of manufacturing parameters for new 3d-printed heating circuits based on cnt-doped nanocomposites processed by uv-assisted direct write A Cortes, A Jiménez-Suárez, M Campo, A Ureña, SG Prolongo Applied Sciences 11 (16), 7534 , 2021 2021 Citations: 7
Cytogenetics of intergeneric hybrids between durum wheat (Triticum turgidum L.) with Thinopyrum intermedium and sub-species Acutum, Glaucum, Pulcherrimum, Trichophorum, Varnense A Mujeeb-Kazi, A Gul, S Rizwan, M Farooq, H Bux, I Ahmad, JI Mirza, ... Pakistan Journal of Botany 39 (4), 1217 , 2007 2007 Citations: 7
